Quantum materials are systems characterized by collective electronic behaviors [1]}, exhibiting phenomena with broad technological applications, such as superconductivity [2]}, topological order [3]}, and quantum spin liquidity [4]}, [5]}. These collective behaviors reflect the presence of entanglement among subparts of the electronic wavefunctions [6]}, [7]}. Quantum fluctuations caused by entanglement play an important role in quantum phase transitions, resulting in unconventional behaviors distinct from traditional theory [8]}, [9]}, [10]}, [11]}, [12]}, [13]}. Furthermore, the presence of entanglement represents a resource for material-based quantum computing, which requires encoding and manipulating arbitrary entangled or even multipartite entangled states [14]}, [15]}. Therefore, the accurate characterization and efficient control of entanglement in solid-state materials are key for the development of future quantum devices [16]}.
